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Exploring the origins of crystallisation kinetics in hierarchical materials using in situ X-ray diffraction and pair distribution function analysis
Authors:
Matthew E.
Potter
(University of Southampton)
,
Mark E.
Light
(University of Southampton)
,
Daniel J. M.
Irving
(University of Southampton)
,
Alice E.
Oakley
(University of Southampton)
,
Stephanie
Chapman
(University of Southampton)
,
Philip
Chater
(Diamond Light Source)
,
Geoff
Cutts
(Diamond Light Source)
,
Andrew
Watts
(Diamond Light Source)
,
Michael
Wharmby
(Diamond Light Source)
,
Bart D.
Vandegehuchte
(Total Research & Technology Feluy)
,
Moritz W.
Schreiber
(Total Research & Technology Feluy)
,
Robert
Raja
(University of Southampton)
Co-authored by industrial partner:
No
Type:
Journal Paper
Journal:
Physical Chemistry Chemical Physics
, VOL 336
State:
Published (Approved)
Published:
March 2020
Diamond Proposal Number(s):
21878
,
19039
,
16135
,
22842
Abstract: The discovery of novel catalytic materials is predicated on understanding contemporary synthetic processes. With this fundamental knowledge in place it becomes possible to modify the final material with subtle changes to the synthesis process. In this vein, hierarchical materials, formed by the addition of a mesoporogen within the hydrothermal synthesis, have attracted a significant amount of attention due to their catalytic benefits over analogous microporous species. In this work we monitor the hydrothermal synthesis in situ of a hierarchical and a microporous aluminophosphate, for the first time, combining total scattering and pairwise distribution function data. In doing so we observe the local formation of the species, and the longer range crystallisation processes concurrently.
Subject Areas:
Chemistry,
Materials
Instruments:
I15-1-X-ray Pair Distribution Function (XPDF)
Added On:
16/04/2020 09:37
Discipline Tags:
Zeolites
Physical Chemistry
Catalysis
Chemistry
Materials Science
Technical Tags:
Scattering
Pair Distribution Function (PDF)